Metod for preparing mineral ore powder using vegetable organic matters and microorganisms

Abstract

The present invention provides a method for preparing mineral ore powder using vegetable organic matter and microorganisms. The method comprises a step of pulverizing seven minerals consisting of 20 wt % of zeolite, 20 wt % of hornblende, 10 wt % of elvan, 10 wt % of illite, 10 wt % of biotite, 20 wt % of tourmaline, and 10% of white clay into 325 mesh; a step of discharging impurities by heating the pulverized mineral powder at a temperature of 1,100° C. for a few days; a step of preparing a mineral ore powder by adding microorganisms and pulverized vegetable organic matter consisting of 30 wt % of mulberry bark, 25 wt % of pine needles, 20 wt % of cypress, 15 wt % of ginger plant, and 10 wt % of bush clover; and a step of drying the mineral ore powder at a temperature of 30° C. for 2 days to activate the microorganisms.

Claims

1. A method for preparing mineral ore powder using vegetable organic matter and microorganisms, the method comprising the following four steps: a first step of pulverizing seven minerals consisting of 20 wt % of zeolite, 20 wt % of hornblende, 10 wt % of elvan, 10 wt % of illite, 10 wt % of biotite, 20 wt % of tourmaline, and 10 wt % of white clay into 325 mesh to form a mineral mixture; a second step of preparing a fine powder by stirring the mineral mixture while heating at a temperature of 1,100° C. in an exothermic body for 3 days to discharge harmful gases and impurities; a third step of preparing a mineral ore powder by adding microorganisms and pulverized vegetable organic matter consisting of 30 wt % of mulberry bark, 25 wt % of pine needles, 20 wt % of cypress, 15 wt % of ginger plant, and 10 wt % of bush clover into the fine powder while adding water vapor to the fine powder to increase adsorption surface coating effect; and a fourth step of drying the mineral ore powder at a temperature of 30° C. for 2 days to activate the microorganisms.

2. The method of claim 1, wherein the microorganisms 50 wt % of lactic acid bacteria, 15 wt % of antibacterial bacteria, 20 wt % of yeast bacteria, and 15 wt % of photosynthetic bacteria.

3. The method of claim 1, wherein the exothermic body comprises 30 wt % of ocher, 30 wt % of sericite, and 40 wt % of olivine, an inner furnace that generates heat is further provided inside the exothermic body, and a combustion furnace surrounds the outside of the exothermic body.

Description

BRIEF DESCRIPTION OF THE DRAWINGS

(1) FIG. 1 is a schematic view of an exothermic body according to the present invention.

(2) FIG. 2 is a process flow diagram of a method for preparing a mineral ore powder according to the present invention.

THE BEST MODE FOR CARRYING OUT THE INVENTION

(3) Hereinafter, preferred embodiments according to the present invention will be described in detail with reference to the accompanying drawings.

(4) FIG. 1 shows an exothermic body 1 of the present invention. The exothermic body 1 is composed of 30% of ocher, 30% of sericite, and 40% of olivine. The inside of the exothermic body is provided with an inner furnace 2 for generating a high temperature, and the combustion furnace 3 is wound around the outer side of the exothermic body 1.

(5) The combustion furnace 3 is configured to surround the outside of the exothermic body 1, so that the high temperature water vapor generated in the inner furnace 2 once again supplies the high temperature heat to the outside of the exothermic body 1 through the combustion furnace 3 surrounding the outside of the exothermic body 1, and then discharge the gases through a water tank (floc generation).

(6) Hereinafter, the method for preparing the mineral ore powder according to the present invention is described.

(7) First, seven minerals composed of 20% of zeolite, 10% of hornblende, 10% of elvan, 10% of illite, 10% of biotite, 20% of tourmaline and 10% of white clay are pulverized to 325 mesh.

(8) This pulverization reduces the specific gravity of the mineral and allow the cold ore to change warmly.

(9) And, the harmful gases and impurities contained in the minerals are ejected while heating at a temperature of 1,000° C. to 1,100° C. for 3 days.

(10) In addition, the microorganisms and the vegetable organic matters in the form of liquid or pulverized powder, which consists of 30% of mulberry bark, 25% of pine needles, 20% of cypress, 15% of ginger plant, and 15% of bush clover, are added to the seven minerals that have been freed of impurities and stirred while heating at high temperatures as described above to produce a mineral ore powder. At this time, water vapor is added to increase the adsorption surface coating effect.

(11) Then, the powder is then dried for 2 days at 30° C. to activate the microorganisms.

(12) A rectangular molybdenum high temperature exothermic body 1 as shown in FIG. 1 is used for the heating at high temperature. The exothermic body 1 forms an electric furnace of 1,300 to 1,800° C.

(13) The exothermic body 1 is composed of 30% of ocher, 30% of cericite, and 40% of olivine, and emits a large amount of far infrared rays and wave energy to increase the high temperature heating effect of the seven minerals in exothermic body 1.

(14) According to the present invention, the mineral ore powder is prepared by treating 7 minerals pulverized into ultrafine particles as described above in the high temperature exothermic body 1 for a long time to discharge harmful gases and impurities contained in the minerals, supplying moisture to the pure mineral ore powder to increase the adsorption performance, and adding microorganisms thereto. Therefore, space energy can be maximized because the mineral ore powder fused with microorganisms acts as an energy catalyst.

(15) The mineral ore powder containing vegetable organic matters and microorganisms can be prepared by allowing microorganisms consisting of 50% of lactic acid bacteria, 15% of antibacterial bacteria, 20% of yeast, 15% of photosynthetic bacteria in the medium at room temperature for 3 days. The said vegetable organic matters act as a medium for the microorganisms.

(16) The mineral ore powder prepared in this way provides ultra-high heat-resistant microbial fusion healthcare multifunctional high-tech industrial raw materials that emit quantum energy, and thus can be applied to a wide range of fields such as semiconductor, pharmaceutical product, new medicine, building materials, carbon fiber, bedding, paint, adhesive, coating, agricultural organic fertilizer, etc.

EXPLANATION OF REFERENCE NUMBER

(17) 1: exothermic body 2: internal furnace 3: combustion furnace